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增强型跟腱修复术使用组织增强型支架:一项生物力学研究。

Augmented tendon Achilles repair using a tissue reinforcement scaffold: a biomechanical study.

机构信息

Department of Orthopaedics, 4860 Y Street, #3880, Sacramento, CA 95817, USA.

出版信息

Foot Ankle Int. 2011 May;32(5):S545-9. doi: 10.3113/FAI.2011.0545.

DOI:10.3113/FAI.2011.0545
PMID:21733465
Abstract

BACKGROUND

Missed or chronic Achilles tendon ruptures may have muscle atrophy and tendon retraction resulting in a defect that must be augmented with endogenous or exogenous materials. The Artelon® Tissue Reinforcement (ATR) scaffold is a readily available synthetic degradable poly(urethane urea) material used to augment tendon repair. The objective of this study was to compare human cadaveric Achilles tendon repairs with and without ATR.

MATERIALS AND METHODS

Eighteen fresh frozen human cadaver limbs were dissected and the tendon transected 2 cm proximal to the calcaneal insertion. The control group of nine specimens was repaired with sutures, while the experimental group was repaired with sutures and reinforced with a tubularized patch of ATR. Specimens were tested for ultimate load to failure in an Instron machine after preloading to 10 N followed by cyclic loading for 20 cycles from 2 to 30 N.

RESULTS

The ultimate load to failure in the control group was a mean of 248.1 N ± 19.6 (202 to 293 at 95% CI) versus 370.4 N ± 25.2 (312 to 428 at 95% CI) in the ATR group. The ultimate load to failure was 370.4 ± 25.2 N (312 to 428 at 95% CI) and 248.1 ± 19.6 N (202 to 293 at 95% CI) in the experimental and control groups, respectively (p = 0.0015). Creep of the ATR augmented group was 2.0 ± 0.5 mm, compared to 3.1 ± 1.1 mm for the control group (p = 0.026).

CONCLUSION

ATR provided a statistically significant improvement in load to failure when compared to control specimens in a cadaver model.

CLINICAL RELEVANCE

This finding may allow for development of more aggressive rehabilitation techniques following chronic Achilles tendon repairs.

摘要

背景

错过或慢性跟腱断裂可能会导致肌肉萎缩和肌腱回缩,从而导致必须使用内源性或外源性材料进行修复。Artelon®组织增强(ATR)支架是一种现成的合成可降解聚(氨酯脲)材料,用于增强肌腱修复。本研究的目的是比较使用和不使用 ATR 的人类尸体跟腱修复。

材料和方法

18 个新鲜冷冻的人体尸体下肢被解剖,肌腱在距跟骨插入 2cm 处被切断。对照组 9 个标本用缝线修复,实验组用缝线和管状 ATR 补丁加固。标本在 Instron 机器上进行预加载至 10N 后进行循环加载 20 次(从 2N 到 30N),然后进行极限失效负载测试。

结果

对照组的极限失效负载平均值为 248.1N±19.6(95%CI 为 202 至 293),而 ATR 组为 370.4N±25.2(95%CI 为 312 至 428)。实验组和对照组的极限失效负载分别为 370.4±25.2N(95%CI 为 312 至 428)和 248.1±19.6N(95%CI 为 202 至 293)(p=0.0015)。ATR 增强组的蠕变量为 2.0±0.5mm,而对照组为 3.1±1.1mm(p=0.026)。

结论

在尸体模型中,与对照组标本相比,ATR 在失效负载方面提供了统计学上的显著改善。

临床相关性

这一发现可能为慢性跟腱断裂修复后的更积极康复技术的发展提供依据。

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